Limit analysis of microstructures based on homogenization theory and the element-free Galerkin method


  • Canh V. Le Department of Civil Engineering, International University, VNU-HCMC
  • Phuc L. H. Ho Department of Civil Engineering, International University, VNU-HCMC



homogenization, limit analysis, second-order cone programming, Element-Free Galerkin method


This paper presents a novel numerical formulation of computational homogenization analysis of materials at limit state. The fluctuating displacement field are approximated using the Element-Free Galerkin (EFG) meshless method. The estimated yield surface of materials can be determined by handling the multiscale (macro-micro) transition. Taking advantage of high-order EFG shape function and the second-order cone programming, the resulting optimization problem can be solved rapidly with the great accuracy. Several benchmark examples will be investigated to demonstrate the computational efficiency of proposed method.


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How to Cite

Le, C. V., & Ho, P. L. H. (2020). Limit analysis of microstructures based on homogenization theory and the element-free Galerkin method. Vietnam Journal of Mechanics, 42(4), 415–426.



Research Paper